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Condensed Matter and Nanoscale Physics - PHYS308

Many basic properties of solid crystals can be understood through the periodic nature of the underlying crystal lattice. From the formation of phononic and electronic bands in a solid, to the thermodynamics of a solid, to its interaction with light - all these phenomena can be understood by taking into account the scattering of electrons and lattice vibrations off the periodic crystal lattice. Furthermore, modern (quantum) optics experiments with semiconductor nano-structures employ the very same principles of wave scattering off periodic structures for confining and transporting light in a variety of important technological applications. This course discusses both the fundamental well-established principles of solid-state physics and at the same time explores the fascinating world of modern solid-state experiments, ranging from novel semiconductor devices, to exotic low-dimensional materials such as graphene, to nanoscale quantum optics experiments aimed at taming single light particles.

Credit Points: 3
When Offered:

S1 Day - Session 1, North Ryde, Day

Staff Contact(s): Professor Jason Twamley
Prerequisites:

PHYS201 and PHYS202 and MATH235 Prerequisite Information

Corequisites:

PHYS301

NCCW(s):
Unit Designation(s):

Science

Unit Type:
Assessed As: Graded
Offered By:

Department of Physics and Astronomy

Faculty of Science and Engineering

Course structures, including unit offerings, are subject to change.
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